GITNUXSOFTWARE ADVICE
Wellness FitnessTop 10 Best Force Plate Software of 2026
Rank the top force plate software options by Output Sports, AnyBody Modeling System, and OpenSim, with key features and tradeoffs for labs.
How we ranked these tools
Vendors set the topic, but our editors set the inclusion criteria and the evaluation framework before research starts.
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Framework: Features 40% · Ease 30% · Value 30%
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Output Sports is the best pick for gait and jump labs that need force-plate outputs ready for C3D-centric analysis, while AnyBody Modeling System is the better fit for teams running musculoskeletal modeling and inverse dynamics from trials. If you need an automation-first pipeline, OpenSim works across studies in a reusable workflow.
Editor’s top 3 picks
Three quick recommendations before you dive into the full comparison below — each one leads on a different dimension.
Output Sports
Trial batch processing that outputs analysis-ready C3D and CSV results for consistent downstream review.
Best for: Fits when gait and jump labs need force plate outputs that drop cleanly into C3D-centric analysis chains.
AnyBody Modeling System
Editor pickInverse dynamics uses configurable musculoskeletal models to transform ground reaction forces into muscle and joint estimates.
Best for: Fits when biomechanics teams need modeled joint and muscle outputs from force plate trials.
OpenSim
Editor pickOpenSim’s model-driven inverse dynamics workflow ties synchronized forces to joint-level mechanics via configurable analysis scripts.
Best for: Fits when biomechanics labs need automated, model-based analysis that reuses the same pipeline across studies.
Comparison Table
Output Sports
vertical specialistOutput Sports provides force plate testing software for jumps, asymmetry, balance, and performance monitoring.
Trial batch processing that outputs analysis-ready C3D and CSV results for consistent downstream review.
Output Sports is strongest when labs need consistent force plate processing that can flow into motion capture reporting without manual rework. It supports export formats commonly used in biomechanics workflows such as CSV and C3D, which helps teams keep one folder structure from capture to analysis to reporting. Protocol-style configuration helps standardize outputs like force-time curve features and derived jump and gait metrics across multi-trial sessions.
A practical tradeoff is that tight pipeline integration depends on aligning Output Sports exports with the receiving software’s import expectations for coordinate conventions and marker timing. Output Sports fits best when teams already have a defined measurement workflow and want the force plate side to deliver analysis outputs in a form motion capture specialists can open and reference quickly.
- +C3D and CSV exports reduce reformatting between biomechanics tools
- +Protocol-style configuration supports repeatable trial-level analysis
- +Derived event metrics fit jump and gait workflows without custom scripting
- +Batch processing reduces manual clicks across multi-trial sessions
- –Pipeline success depends on consistent timing alignment with motion capture
- –Some advanced configuration choices require careful setup discipline
Biomechanics lab technicians
Batch-process multi-trial jump protocols
Less manual processing per session
Gait analysis coordinators
Generate gait features from plate signals
Faster turnaround for cohorts
Show 1 more scenario
Research engineers
Integrate plate outputs into C3D workflows
Single pipeline for reporting
Engineers use C3D exports to connect plate-derived curves with marker-based post-processing steps.
Best for: Fits when gait and jump labs need force plate outputs that drop cleanly into C3D-centric analysis chains.
AnyBody Modeling System
enterpriseAnyBody Modeling System uses force plate data in musculoskeletal modeling and inverse dynamics simulations.
Inverse dynamics uses configurable musculoskeletal models to transform ground reaction forces into muscle and joint estimates.
AnyBody Modeling System supports an end-to-end modeling pipeline where force plate outputs feed inverse dynamics and produce consistent joint and muscle quantities across trials. Configuration is model-first, so researchers control segment geometry, degrees of freedom, muscle parameters, and constraints before any trial batch runs. The workflow fits labs that already have synchronized analog-to-digital conversion and want a repeatable force-to-biomechanics conversion step for gait, stance, and jump protocols.
A key tradeoff is that force plate analysis setup requires modeling decisions and validation effort, not just choosing a prebuilt template for a specific device. The best usage situation is a gait or countermovement jump study where muscle activation timing and joint loading patterns must align with force-time signals and where the team can manage model configuration discipline across studies.
- +Inverse dynamics pipeline produces joint and muscle quantities from force inputs
- +Model-first configuration enables repeatable trial processing across studies
- +Time series outputs support force-time curve and loading interpretation workflows
- +Extensible scripting and batch runs support high-throughput protocol execution
- –Setup time increases when adapting the musculoskeletal model to new cohorts
- –Force plate device-specific preprocessing is not the central focus of the tool
Biomechanics research labs
Compute joint and muscle loads from force plate
Joint load trends across trials
Gait study analysts
Compare stance phases with consistent modeling
More consistent cross-trial metrics
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Sports performance modelers
Estimate jumping mechanics from force-time
Mechanics insights per protocol
Modelers drive inverse dynamics with jump ground reaction forces to interpret landing and takeoff mechanics.
Best for: Fits when biomechanics teams need modeled joint and muscle outputs from force plate trials.
OpenSim
API-firstOpenSim provides open-source musculoskeletal modeling tools that can use ground reaction force data.
OpenSim’s model-driven inverse dynamics workflow ties synchronized forces to joint-level mechanics via configurable analysis scripts.
OpenSim can ingest force plate data as part of a broader biomechanics workflow that includes time-aligned kinematics and model-based computations. It is particularly relevant for impulse-momentum analysis style studies and for deriving metrics like rate of force development from force-time curves, since the toolchain operates on raw time series and model outputs. For labs standardizing post-processing across studies, OpenSim’s scriptable analysis tasks make it practical to rerun the same pipeline on new sessions.
A tradeoff appears when teams expect a force plate viewer that handles every step from synchronized acquisition through polished GUI reporting without model configuration work. OpenSim requires more upfront setup around biomechanical models and task configuration, so it fits best when analysis governance matters and the lab already uses motion capture synchronization and an inverse dynamics pipeline. It is also a weaker fit for purely exploratory, marker-free force plate workflows where the primary requirement is fast event marking and report generation.
- +Scriptable workflows enable repeatable force-to-biomechanics pipelines
- +Model-based inverse dynamics supports joint-level interpretation from forces
- +Extensibility supports custom analysis tasks and post-processing steps
- +Time series centric outputs support impulse-momentum and force-time metrics
- –Model setup adds overhead compared with GUI-first force plate tools
- –Force plate only studies lack the richer motion capture integration
Biomechanics research labs
Gait inverse dynamics from synchronized forces
Consistent joint mechanics outputs
Motor control investigators
Rate of force development from force-time
Comparable RFD across sessions
Show 1 more scenario
Clinical biomechanics teams
Protocol-based jump analysis pipeline
Lower manual analysis burden
OpenSim automates countermovement jump post-processing using scripted configurations across participants.
Best for: Fits when biomechanics labs need automated, model-based analysis that reuses the same pipeline across studies.
Qualisys Track Manager
enterpriseMotion capture software suite with integrated force plate data acquisition modules.
Synchronized force plate and motion capture session handling that keeps labeling and timing consistent across trials.
Qualisys Track Manager supports force plate workflows with tight coupling to Qualisys motion capture streams, which matters when ground reaction force and kinematics must share timing and labeling. Track Manager handles standard force-time analysis outputs like center of pressure trajectory and force-time curve views inside the same project context as motion capture sessions.
- +Strong synchronization flow with Qualisys capture for force and kinematics
- +Consistent trial organization for repeated gait and jump protocols
- +Practical exports for downstream biomechanical analysis pipelines
- +Force plate analysis views stay integrated with session context
- –Less flexible for labs that want force plate processing without motion capture
- –Advanced customization can depend on session setup details and templates
- –Interoperability can require careful mapping when exporting mixed device data
- –User governance and audit logging are not the central focus
Best for: Fits when gait and jump labs run Qualisys marker-based capture and want force plate analysis in sync.
AcqKnowledge
enterpriseAcqKnowledge acquires and analyzes analog force plate signals alongside physiological and biomechanical measurements.
Synchronous trigger and multimodal time alignment built around Biopac measurement chains for force plate plus sensor protocols.
AcqKnowledge from biopac.com records force plate signals and time-aligns them with other physiological and lab inputs for gait, balance, and jump protocols. The software focuses on acquisition control, event marking, and post-processing exports so force-time results can feed motion capture workflows.
- +Strong acquisition workflow for synchronized force plate experiments
- +Time alignment support for multimodal protocols that include EMG or sensors
- +Export formats fit common biomechanics post-processing chains
- +Event marking supports protocol-driven batch processing
- –User interface requires setup discipline for reliable multi-device synchronization
- –Post-analysis depth depends on external biomechanics tools for advanced metrics
- –Workflow flexibility can feel limited for labs expecting one-click reports
- –Calibration and channel mapping setup can be tedious for new force plate rigs
Best for: Fits when labs need synchronized force plate acquisition and reliable exports into existing biomechanics processing pipelines.
PASCO Capstone
educationSTEM data collection and analysis software that supports PASCO force platforms and lab sensors.
Center of pressure trajectory and force-time analysis are integrated into a single acquisition-to-export workflow for PASCO datasets.
PASCO Capstone serves gait and biomechanics labs that need a workflow around PASCO force sensors, with analysis centered on force-time behavior and derived center of pressure signals. Capstone is geared toward recording, calibrating, and exporting force plate style datasets for lab protocols like static balance and dynamic landing analysis.
- +Protocol-first workflow for PASCO force sensor acquisition and analysis
- +Center of pressure trajectory outputs support postural and landing reviews
- +Time-domain tools make impulse-momentum style review practical for common tasks
- +Export options support typical biomechanics data handoff
- –Limited depth for marker-based motion capture pipelines compared with capture-suite tools
- –Force plate calibration and synchronization can require careful setup discipline
- –Extensibility and automation hooks lag labs needing scripted batch processing
- –Advanced inverse dynamics style workflows are not the core center of gravity
Best for: Fits when labs prioritize PASCO force hardware workflows and need consistent analysis exports for gait and landing studies.
Kistler MARS
enterpriseAnalysis software for biomechanical force platform data in research and clinical settings.
Protocol-oriented GRF and center of pressure analysis that stays tightly aligned to Kistler acquisition timing and session organization.
Kistler MARS pairs Kistler force plate acquisition with a motion and biomechanics workflow that can stay in one software environment from trigger to analysis. The tool supports center of pressure trajectory, force-time curves, and jump and balance protocol outputs built around ground reaction force and impulse-momentum style reporting.
- +Force plate analyses stay consistent across acquisition, filtering, and protocol-derived outputs
- +Center of pressure trajectory reporting fits gait and balance workflows
- +Export support supports common biomechanics handoff paths like C3D
- +Protocol-driven metrics cover common jump and balance reporting patterns
- –Cross-vendor capture integration is more constrained than motion-capture-first stacks
- –Workflow setup for synchronized multimodal sessions can require specialist configuration
- –Automation and scripting for batch processing are limited versus automation-first competitors
- –Project templates can be rigid when labs run frequently changing protocols
Best for: Fits when labs standardize on Kistler force plates and need protocol-based GRF analysis with reliable exports.
BTS GAITLAB
enterpriseIntegrated gait analysis system with force plate data acquisition.
Protocol-driven gait processing that organizes GRF and center of pressure outputs into consistent session reports.
BTS GAITLAB targets gait and force-plate workflows with a focus on extracting clinical and biomechanical outputs from time-synchronized force data. It supports analysis routines built around ground reaction force signals, center of pressure trajectory metrics, and export formats used by motion-capture and biomechanics pipelines.
- +Gait protocol oriented workflow built around force-plate sessions
- +Center of pressure trajectory and ground reaction force metrics in one analysis view
- +Force-time curve visualization supports protocol review and QC
- +Multi-format export paths support downstream biomechanics tools
- –Advanced scripting and automation via API is not a primary strength
- –Complex multi-device synchronization workflows may need careful setup discipline
- –Some lab reporting customizations can feel limited for unusual templates
- –Inverse dynamics style pipelines depend on export and external processing
Best for: Fits when gait and GRF reporting needs repeatable force-plate processing with straightforward trial review.
Tekscan
vertical specialistPressure and force measurement software for clinical and industrial applications.
Trial analysis templates for gait and jump protocols tied to force plate calibration, reducing reconfiguration across repeated sessions.
Tekscan force plate software runs acquisition-to-analysis workflows for ground reaction force data and center of pressure trajectory metrics. The toolset is built around force plate specific calibration, trial handling, and event based analysis for tasks like gait, balance, and jump protocols.
- +Force plate workflows support calibration and trial organization in one software path
- +Center of pressure trajectory outputs support postural and gait interpretation
- +C3D and CSV exports support common lab data handoff needs
- +Protocol oriented analysis supports repeatable gait and jump processing
- –Advanced inverse dynamics pipelines depend on external tooling
- –EMG synchronization and multi system timing are limited by capture chain design
- –Automation surface is thin compared with automation heavy capture stacks
- –Complex batch studies require more manual trial handling
Best for: Fits when labs need Tekscan calibrated force plate analysis plus C3D or CSV export into an existing biomechanics pipeline.
Bertec Digital Acquire
researchData acquisition software for Bertec force plates used in gait, balance, and biomechanics measurement.
Force-plate acquisition and export are organized around protocol-ready capture settings rather than after-the-fact cleanup.
Bertec Digital Acquire brings force-plate acquisition and post-processing into one workflow, with a focus on repeatable capture settings and file outputs for downstream biomechanics. The software supports standard force-time workflows such as center of pressure trajectory inspection and impulse-momentum analysis on force signals.
- +Repeatable capture configuration supports consistent force-plate sessions
- +C3D and CSV exports support typical biomechanics analysis pipelines
- +Center of pressure trajectory outputs support balance and gait review
- +Impulse-momentum analysis outputs fit standard rehab and sports workflows
- –Integration with marker-based motion capture depends on external synchronization
- –Automation and API access for batch processing is limited for large studies
- –Advanced scripting hooks for custom metrics are not a primary workflow
- –Protocol templates cover common tests but require setup discipline for edge cases
Best for: Fits when labs need dependable force-plate capture and analysis outputs for standard gait and jump protocols.
Conclusion
After evaluating 10 force plate software, Output Sports stands out as our overall top pick — it scored highest across our combined criteria of features, ease of use, and value, which is why it sits at #1 in the rankings above.
Use the comparison table and detailed reviews above to validate the fit against your own requirements before committing to a tool.
How to Choose the Right Force Plate Software
Force plate software typically acts as the control surface for force acquisition setup, trial organization, and analysis export for gait, landing, and jump workflows. This guide covers Output Sports, Cortex, Vicon Nexus, Qualisys Track Manager, and Natus tools, alongside the wider set of force plate platforms that labs pair with biomechanics processing pipelines.
The practical differences show up in how each tool handles synchronization, how trial outputs convert into C3D or CSV, and how much automation exists for repeatable processing across many sessions. Teams that run marker-based capture alongside force plates tend to care about session timing and labeling consistency, while teams focused on force-only studies tend to care more about batch processing throughput and export reliability.
Force Plate Software for GRF workflows, synchronization, and analysis export
Force plate software turns force plate acquisition into analyzable outputs like ground reaction force time series, center of pressure trajectory reporting, and protocol-structured trial results for repeated gait and jump studies. The key buying criterion is whether the software keeps force and session metadata aligned from acquisition through export, so downstream biomechanics work does not depend on manual relabeling.
Output Sports targets batch-style processing that outputs analysis-ready C3D and CSV results for consistent downstream review, and it uses protocol-style configuration to keep trial-level processing repeatable. Qualisys Track Manager focuses on synchronized force plate and motion capture session handling, which keeps labeling and timing consistent across trials when Qualisys marker-based capture is part of the workflow.
Force Plate Software capabilities that change GRF lab throughput and integrity
The categories that drive day-to-day work are synchronization control, repeatable trial organization, and export formats that preserve force-time and center of pressure context for downstream biomechanics. Software that keeps timing and session metadata aligned reduces manual relabeling after acquisition and prevents inconsistent gait and jump comparisons across studies.
The practical differentiator across Output Sports, Qualisys Track Manager, and Cortex-style motion capture stacks is how the tool carries trial structure from capture through C3D and CSV outputs. The same differentiator determines whether advanced workflows like inverse dynamics stay scriptable and repeatable or require GUI-driven cleanup and template tuning.
Protocol-first trial configuration and repeatable batch processing
Output Sports uses protocol-style configuration to keep trial-level processing repeatable while it runs trial batch processing and outputs analysis-ready C3D and CSV results. Bertec Digital Acquire also organizes force-plate acquisition and export around protocol-ready capture settings so standard gait and jump protocols run with consistent outputs.
Synchronized handling for motion capture plus force plate sessions
Qualisys Track Manager focuses on synchronized force plate and motion capture session handling that keeps labeling and timing consistent across trials. AcqKnowledge adds synchronous trigger and multimodal time alignment built around Biopac measurement chains when synchronized force plate experiments include EMG or other sensors.
Model-driven inverse dynamics automation for muscle and joint quantities
AnyBody Modeling System converts force inputs into joint and muscle quantities through an inverse dynamics pipeline built around configurable musculoskeletal models. OpenSim provides a model-driven inverse dynamics workflow with configurable analysis scripts so teams can reuse the same force-to-biomechanics pipeline across studies.
Center of pressure trajectory reporting inside the force analysis workflow
PASCO Capstone integrates center of pressure trajectory and force-time analysis in a single acquisition-to-export workflow to support postural and landing reviews from the same outputs. Kistler MARS stays tightly aligned to Kistler acquisition timing and session organization while it reports center of pressure trajectories for gait and balance workflows.
Export formats that reduce reformatting between biomechanics tools
Output Sports outputs analysis-ready C3D and CSV results so downstream biomechanics tools can reuse the same files without reformatting. Tekscan also targets Tekscan calibrated force plate workflows that produce C3D or CSV exports for existing biomechanics pipelines.
Gait protocol organization for consistent GRF and reporting views
BTS GAITLAB organizes GRF and center of pressure outputs into consistent session reports using a protocol-driven gait processing workflow. Qualisys Track Manager similarly keeps trial organization consistent for repeated gait and jump protocols when force and kinematics are captured together.
Pick based on synchronization scope and the analysis engine used for force-to-mechanics
Force plate software selection turns on two choices that determine automation depth and how much time gets spent on session hygiene. One choice is whether the tool owns synchronization and session handling with marker-based motion capture or whether it focuses on force-only pipelines with exports.
The second choice is whether force processing stays protocol-driven and export-oriented or whether the software drives a model-based inverse dynamics workflow with configurable analysis scripts. Those choices separate Output Sports-style batch export workflows from OpenSim and AnyBody-style model-first pipelines.
Choose synchronization ownership based on whether marker-based capture is in the same session
Pick Qualisys Track Manager when marker-based motion capture runs alongside force plates and consistent labeling and timing across trials are required. Pick AcqKnowledge when synchronized force plate acquisition must align time across multimodal sensor chains built around Biopac measurement workflows.
Choose force-only batch export when motion capture integration is not central
Pick Output Sports when repeatable trial batch processing should output analysis-ready C3D and CSV results for consistent downstream review. Pick Bertec Digital Acquire when standard gait and jump protocols need dependable force-plate capture and export organized around protocol-ready capture settings rather than after-the-fact cleanup.
Choose model-driven inverse dynamics when joint and muscle outputs must come from force signals
Pick AnyBody Modeling System when the workflow must transform ground reaction inputs into muscle and joint estimates using configurable musculoskeletal models in an inverse dynamics pipeline. Pick OpenSim when scriptable inverse dynamics automation needs configurable analysis scripts that tie synchronized forces to joint-level mechanics across studies.
Choose center of pressure workflow integration when balance and landing review starts from the same exports
Pick PASCO Capstone when center of pressure trajectory and force-time analysis should be integrated into one acquisition-to-export workflow for postural and landing reviews. Pick Kistler MARS when Kistler-aligned center of pressure reporting must stay tied to Kistler acquisition timing and session organization.
Choose protocol reporting views for consistent gait and center of pressure deliverables
Pick BTS GAITLAB when protocol-driven gait processing must organize GRF and center of pressure outputs into consistent session reports for repeatable trial review. Pick Tekscan when calibrated force plate analysis templates need consistent gait and jump protocol execution plus C3D or CSV export into existing pipelines.
Who should buy which Force Plate Software based on workflow and integration priorities
Different force plate software packages match different lab operating models. The biggest split is whether the lab runs synchronized marker-based capture together with force plates or whether the lab runs force-only acquisitions and pushes outputs into separate biomechanics tools.
The next split is whether the lab needs a model-driven inverse dynamics workflow inside the force plate software or whether it prefers protocol-driven processing that outputs C3D and CSV for external analysis.
Gait and jump labs running marker-based capture with Qualisys hardware
Qualisys Track Manager provides synchronized force plate and motion capture session handling that keeps labeling and timing consistent across trials, which reduces relabeling overhead during repeated gait and jump protocols.
Biomechanics teams that need joint and muscle estimates from force plate trials
AnyBody Modeling System produces joint and muscle quantities through an inverse dynamics pipeline driven by configurable musculoskeletal models, and OpenSim provides a model-driven inverse dynamics workflow with configurable analysis scripts.
Labs focused on force-only workflows that push outputs into C3D-centric analysis chains
Output Sports runs trial batch processing that outputs analysis-ready C3D and CSV results designed for consistent downstream review, which keeps the pipeline stable across many sessions.
Force hardware standardization projects that prioritize Kistler-aligned protocol outputs
Kistler MARS aligns force plate analysis with Kistler acquisition timing and session organization so GRF and center of pressure reporting stays consistent for gait and balance workflows.
Acquisition labs with Biopac-centered multimodal sensor chains
AcqKnowledge centers on synchronous trigger and multimodal time alignment built around Biopac measurement chains so force plate timing can stay consistent with EMG and other sensor recordings.
Common buying mistakes that create manual cleanup after acquisition
Labs often buy force plate software for its exports but discover later that synchronization scope and trial metadata handling do not match the acquisition chain. That mismatch leads to time alignment errors, inconsistent trial organization, and extra conversion work before inverse dynamics or gait reporting can run.
Other failures come from choosing a model-first workflow without allocating time for model setup or choosing a force-only batch tool when marker-based synchronization is required in the same session.
Choosing a force-only export workflow when marker-based motion capture labeling and timing must stay consistent
Qualisys Track Manager exists specifically to keep labeling and timing consistent across trials when force plates and Qualisys marker-based capture run together, so it avoids session hygiene work that force-only exports cannot solve.
Assuming model-driven inverse dynamics is turnkey without model adaptation overhead
OpenSim and AnyBody Modeling System both rely on configurable inverse dynamics and model setup, so teams must plan for setup time when adapting musculoskeletal models to new cohorts.
Overlooking how batch processing depends on timing alignment with motion capture
Output Sports can run trial batch processing for consistent C3D and CSV outputs, but pipeline success depends on consistent timing alignment with motion capture, so synchronization gaps can propagate across the batch.
Selecting COP-heavy analysis tools without checking how exports fit the target biomechanics toolchain
PASCO Capstone integrates center of pressure trajectory and force-time analysis into one workflow, but labs should confirm that the resulting exports match the downstream biomechanics tool expectations for repeatable gait and landing review.
How analysts built the shortlist from official product materials
Analysts gathered information by searching for each force plate software package named in the shortlist and copying the figures shown next to the passages that describe product capabilities. Analysts compared those figures with official documentation and the changelog and they used an independent review when one was cited by the original publication.
Analysts kept each figure only when it matched the documentation and included a published benchmark only when the benchmark was the source behind the claim. Output Sports is treated as the top pick because it pairs trial batch processing with analysis-ready C3D and CSV outputs and uses protocol-style configuration to keep trial-level processing repeatable.
Frequently Asked Questions About Force Plate Software
How do Cortex, Vicon Nexus, Qualisys Track Manager, and Natus tools handle synchronized force plate timing with motion capture?
What integration paths exist for getting force plate results into C3D or other biomechanics pipelines?
Which tool best fits event-level jump analysis when a lab needs batch processing across many trials?
How do teams migrate existing force plate data into a new workflow without breaking downstream computations?
What admin controls and access control features matter for shared lab workstations and multi-user projects?
How do APIs and automation options differ between modeling-focused tools and acquisition-to-analysis tools?
When does the center of pressure workflow break down, and what configurations usually cause those issues?
What tradeoff appears when switching from protocol-driven gait processing to model-driven inverse dynamics outputs?
Tools reviewed
Primary sources checked during evaluation.
Referenced in the comparison table and product reviews above.
Funding and competing interests
This study was co-funded by several of the vendors assessed in it. No single vendor funded it. Funders could propose the market studied.
They had no role in selecting vendors, setting or weighting criteria, analysing data or drawing conclusions, and they received the same factual-accuracy check as every other vendor assessed.
Market definition, inclusion rules and criteria weights were fixed by an editor before research began and did not change afterwards. Editorial process →
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